생화학분자생물학회입니다.
Advancing Membrane Biology: Single-Molecule Approaches Meet Model Membrane Systems
작성자
Min Ju Shon작성일자
2024-12-26조회수
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Name: Min Ju Shon ( mjshon@postech.ac.kr ) | |
2020-present | Assistant (2020-2024) and Associate Professor (2024-present), Dept. of Physics and School of I-BIO, POSTECH | |
2017-2020 | Postdoctoral Fellow (2017-2019) and Research Assistant Professor (2019-2020), Seoul National University | |
2014-2016 | Postdoctoral Associate, KAIST | |
2008-2014 | Ph.D., Dept. of Chemistry and Chemical Biology, Harvard University | |
2007 | B.S., Dept. of Chemistry, Seoul National University | |
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Name: Jaehyeon Shin ( jhyeonshin@postech.ac.kr ) | |
2023-present | MS-Ph.D. Integrated Program, Dept. of Physics, POSTECH | |
2023 | B.S., Dept. of Physics, POSTECH |
Advancing Membrane Biology: Single-Molecule Approaches Meet Model Membrane Systems
Model membrane systems are powerful tools that enable focused studies of specific membrane
components in simplified environments, free from the complexity of cellular membranes. To fully
harness the potential of these systems, integration with single-molecule techniques is essential.
However, the structural and dynamic properties of model membranes have historically posed
challenges for such integration. This mini-review explores the evolution of model membrane
systems as they have adapted to incorporate single-molecule techniques. It highlights key
innovations and modifications that have facilitated this synergy, covering various model
membrane platforms such as free-standing lipid bilayers and liposome systems, and their
integration with methods like electrophysiology, force spectroscopy, and fluorescence
microscopy. By examining these advancements, the review provides insights into current
research trends in model membrane studies and identifies areas for future improvement. This
resource is intended for researchers looking to leverage the combined power of model
membranes and single-molecule techniques in their exploration of membrane-mediated cellular
processes.
BMB Rep. 2024 Dec 20. pii: 6384. [Epub ahead of print]
https://pubmed.ncbi.nlm.nih.gov/39701026/